2026 Harley-Davidson® Low Rider® S near Bentonville, AR

Rider cruising a blue 2026 Harley-Davidson Low Rider S motorcycle on an open street near Bentonville, Arkansas.

The 2026 Harley-Davidson® Low Rider® S is designed as a performance-focused cruiser that combines high-output power with purposeful chassis geometry and modern rider assistance systems. This motorcycle emphasizes measurable technical performance rather than luxury add-ons, making it a model defined by engineering choices and functional specifications. Its configuration reflects a clear priority on torque delivery, handling precision, rider control, and mechanical simplicity. The 2026 Harley-Davidson® Low Rider® S integrates a large-displacement V-twin engine, aggressive suspension components, and a structured electronic support system intended to improve stability and rider awareness.

Dimensionally, the motorcycle measures 92.9 inches in length with an overall width of 35 inches and a height of 47.4 inches. The laden seat height of 27 inches supports controlled rider positioning, and the 63.6-inch wheelbase contributes to stability during acceleration and cornering. Static ground clearance is measured at 5.7 inches, which supports lean performance while maintaining everyday ride practicality. 

Engine Performance and Power Delivery

The 2026 Harley-Davidson® Low Rider® S uses the Milwaukee-Eight® 117 High Output engine, a large-displacement V-twin configured for strong torque and consistent power throughout the rev range. The engine displacement measures 117 cubic inches or 1,923 cubic centimeters, created by a bore of 4.075 inches and a stroke of 4.5 inches. This long-stroke setup supports strong low- and mid-range pulling capability. The compression ratio is set at 10.3:1, supporting efficient combustion and dependable throttle response.

Engine output is rated at 114 horsepower at 5,000 rpm, while torque reaches 128 ft-lb at 4,000 rpm. These values indicate performance geared toward rapid roll-on acceleration and sustained pulling power at moderate engine speeds. The pushrod-operated overhead valve system uses hydraulic self-adjusting lifters and four valves per cylinder, reducing maintenance demands while maintaining consistent valve operation. Electronic Sequential Port Fuel Injection manages fuel delivery with precision, ensuring stable combustion and throttle consistency across varying speeds and load conditions.

Air intake efficiency is supported by a Heavy Breather intake fitted with synthetic media and a washable exposed element. Exhaust routing follows a 2-into-1 configuration with the catalyst positioned in the header. Engine lubrication uses a pressurized dry-sump system paired with an oil cooler to maintain operating temperatures during extended riding conditions. 

Transmission and Drivetrain Architecture

Power from the engine transfers through a chain-driven primary setup, then through a carbon-fiber-reinforced belt final drive. This arrangement provides durability and reduced maintenance while maintaining smooth delivery characteristics. The clutch is a mechanical ten-plate wet configuration with assist and conventional engagement design, reducing lever effort while preserving strong engagement under acceleration.

The 6-Speed Cruise Drive® transmission enables broad usability across different riding environments. Lower gears maintain strong acceleration capability, while higher gears reduce engine speed during sustained cruising. Gear ratios demonstrate progressive spacing from first gear at 9.311 through second at 6.454, third at 4.793, fourth at 3.882, fifth at 3.307, and sixth at 2.79. This ratio spread supports both responsive launches and controlled highway operation. 

Chassis Construction and Structural Engineering

The frame of the 2026 Harley-Davidson® Low Rider® S uses mild steel tubular construction with a rectangular section backbone and a combination of stamped, cast, and forged junctions. MIG welding joins key structural points, improving structural rigidity while controlling weight. Forged aluminum fender supports reduce mass in select areas without compromising structural integrity. This design allows the chassis to remain strong under acceleration and braking while maintaining responsive handling.

The swingarm follows a tubular steel layout with a stamped cross-member and forged axle junctions. Its construction supports stability under heavy torque loads and contributes to consistent rear-wheel tracking. The removable belt spacer further reflects service-oriented engineering decisions.

Front suspension uses a single-cartridge 43 mm inverted fork paired with aluminum triple clamps. The inverted design increases rigidity and improves steering precision during aggressive riding inputs. The rear suspension consists of a hidden coil-over monoshock with a free piston design, hydraulic preload adjustment, and 56 mm of stroke. Suspension travel measures 5 inches at the front and 4.4 inches at the rear, providing controlled movement while preserving a firm ride profile suitable for performance-focused cruising.

Wheel, Tire, and Geometry Specifications

Wheel design supports both visual aggressiveness and handling precision. The front wheel is a black Radiate cast aluminum unit measuring 19 inches in diameter and 2.5 inches in width. The rear wheel measures 16 inches in diameter with a 5-inch width, allowing for a broad contact patch under acceleration. Michelin® Scorcher 31 tires are fitted front and rear, with a front specification of 110/90B19 and a rear specification of 180/70B16.

Geometry values are designed to deliver predictable steering and balanced stability. The steering head rake is set at 28 degrees, matching the fork angle, while trail measures 5.7 inches. Combined with the long wheelbase, these numbers create stable directional control at speed while supporting confident corner entry. Lean angle capacity measures 31.3 degrees on both the left and right sides, showing that cornering capability remains a priority despite cruiser styling.

Braking System and Handling Control

Braking performance is managed by dual front rotors and a single rear rotor. The front setup uses fixed four-piston calipers paired with 11.8-inch black split 7-spoke floating rotors. The rear uses a two-piston floating caliper with an 11.5-inch rotor. Rotor thickness measures 0.2 inches in the front and 0.23 inches in the rear. This combination balances stopping force and brake feel, contributing to controlled deceleration across different riding conditions.

Anti-Lock Braking System functionality comes standard, reducing wheel lock risk during heavy braking. The braking design complements chassis geometry and suspension calibration, maintaining stability under load transfer. 

Electrical Systems and Rider Information Technology

The electrical system relies on a sealed absorbed glass mat battery rated at 12 volts and 17.5 amp-hours. Charging duties are handled by a three-phase 48-amp system capable of producing 624 watts maximum output at 2,000 rpm. Starting is managed by a 1.6 kW electric starter with solenoid shift motor engagement, supporting consistent starts under varying conditions.

Lighting is fully LED-based. The headlamp integrates a low beam, a high beam, and a signature position lamp for visibility. Tail and stop lighting also use LED technology, along with front and rear LED bullet turn signals. This configuration improves visibility while minimizing electrical load.

The primary rider interface is a 4-inch analog speedometer with integrated digital functions. Displayed information includes gear position, odometer, fuel level, ride modes, traction control status, ABS indication, tire pressure monitoring data, cruise control information, clock, trip readings, range estimation, and tachometer data. A USB-C power outlet rated at 5 volts and 2.4 amps provides charging capability for compatible devices. Infotainment features such as built-in speakers, navigation, or Bluetooth® connectivity are not included, reflecting a simplified, performance-oriented equipment approach.

Rider Safety Enhancements and Cornering Systems

Rider assistance technology focuses on traction and braking management. Standard systems include the Anti-Lock Braking System, Traction Control System, Drag-torque Slip Control System, and Tire Pressure Monitoring System. These systems operate in the background to improve stability during acceleration and deceleration.

The motorcycle also integrates cornering-enhanced safety systems that adapt intervention based on lean angle. Cornering Enhanced ABS modifies braking response during leaned turns, helping maintain traction. Cornering Enhanced Traction Control manages wheel slip during corner exit or throttle application. Cornering Drag-Torque Slip Control assists with stability during downshifting and engine braking. 

Fuel Capacity, Efficiency, and Operational Range

Fuel capacity is measured at 5 gallons, with a reserve fuel warning activating at approximately 1 gallon remaining. This capacity supports extended travel intervals and reduces fueling frequency on longer rides. Estimated fuel economy is rated at 47 miles per gallon based on city and highway testing methods. Operational fluid capacities include 5 quarts of engine oil with filter, 1 quart for transmission fluid, and 1.25 quarts for the primary chain case. 

Visit Pig Trail Harley-Davidson® near Bentonville, AR

Riders interested in understanding how the 2026 Harley-Davidson® Low Rider® S performs under controlled riding conditions can schedule a test ride through Pig Trail Harley-Davidson® near Bentonville, AR. A ride allows direct evaluation of torque delivery, suspension behavior, braking response, and the operation of rider safety systems in motion. The motorcycle’s handling characteristics become clearer when experiencing its geometry, wheelbase, and seat positioning firsthand. Testing the digital gauge functions and traction systems during a ride also helps riders understand the model’s technical focus. Scheduling a test ride provides a practical opportunity to evaluate the engineering features and specifications described above in a structured and professional setting.